that is one of the subject covered by Srivastava conference at CERN this 22/03/2012...
other strange experiments are : - abnormaly energetic particle from solar flare - exploding wires producing neutrons in his (numerous) slides Larsen talk of other strange phenomenons. -one about the strange istotopic change in nitrogen near a coke factpry in south africa - strange isotopic change and composition change in iraki oil when reformed long time... - old japanese experiment or arcing in oil, with possible transmutations... - old transmutation observed in x-ray tube filled with H2 (einstein worked on that a little, proposed ideas similar to Preparatta) 2012/3/27 Harry Veeder <[email protected]> > Might this be related to the piezonuclear activity (production of neutrons) > observed during the laboratory fracturing of granite under strain? > > "these locally extreme conditions could catalyse in the interpenetration > band the formation of a plasma from the gases which are > present in the solid materials (even at room conditions)." > > from > Piezonuclear neutrons from fracturing of inert solids > Physics Letters A 373 (2009) 4158–4163 > F. Cardone , A. Carpinteric, G. Lacidognac > > Harry > > > > On Tue, Mar 27, 2012 at 3:18 PM, Axil Axil <[email protected]> wrote: > > Novel Attractive Force Between Ions in Quantum Plasmas > > > > http://arxiv.org/pdf/1112.5556.pdf > > > > This is the paper behind the article. > > > > This paper explains the theoretical basis of a new form of matter called > > ionic crystals. > > > > Ionic crystals are the agent that causes cold fusion. > > > > The article says: Quantum plasmas extend the area of application to > > nano-scales, where quantum-mechanical effects gain significance. This is > the > > case when, in comparison to normal plasmas, the plasma density is very > high > > and the temperature is low. > > > > Axil says: > > > > This is what we have in the Rossi type reactor. The hydrogen envelope is > > very high density plasma with a very low temperature. The population of > > degenerate electrons in this envelope is high due to the high pressure of > > the hydrogen gas. > > > > These degenerate electrons force Rydberg atoms together into a condensate > > and keep this condensate together when the crystal ionizes. > > > > These degenerate electrons produce a force field at long range that > pushes > > protons together to form cooper pairs. This attractive electron field > also > > forces naked positively charges nuclei together that have had their > coulomb > > barrier stripped as described in my post titled “the magnetic monopole.” > > > > When these naked nuclei come into contact, the nuclear force takes over > to > > form new elements. > > > > Degenerate electrons are attributable to the Pauli Exclusion Principle. > The > > pressure maintained by a body of degenerate matter is called the > degeneracy > > pressure, and arises because the Pauli principle prevents the constituent > > particles from occupying identical quantum states. Any attempt to force > them > > close enough together that they are not clearly separated by position > must > > place them in different energy levels. Therefore, reducing the volume > > requires forcing many of the particles into higher-energy quantum states. > > This requires additional compression force, and is made manifest as a > > resisting pressure. > > > > Therefore, since according to the Heisenberg uncertainty principle ΔpΔx ≥ > > ħ/2 where Δp is the uncertainty in the particle's momentum and Δx is the > > uncertainty in position, then we must say that their momentum is > extremely > > uncertain since the particles are located in a very confined space. > > Therefore, even though the plasma is cold, the electron must be moving > very > > fast on average. This leads to the conclusion that if you want to > compress > > an object into a very small space, you must use tremendous force to > control > > its particles' momentum. > > > > This is what the micro-cavities in the micro powder do; compress > electrons > > into the degenerate state. > > > > The article says: The new negative potential causes an attractive force > > between the ions, which then form lattices. > > > > Axil says: > > > > This is why Rydberg ions are formed so readily in a pressurized hydrogen > > envelope. > > > > The article says: They are compressed and the distances between them > > shortened, so that current can flow through them much faster. > > > > Axil says: > > > > This is why electrical resistances drops as the temperature increases in > > cold fusion material. > > > > > > > > > > > > > > > > > > > > On Tue, Mar 27, 2012 at 2:34 PM, MarkI-ZeroPoint <[email protected]> > > wrote: > >> > >> Hi Fran, > >> > >> Reduced, or completely masked? Don’t know yet… > >> > >> It’s still ‘in press’ so I doubt PRL will have an abstract yet… > >> > >> > >> > >> What’s interesting is this: > >> > >> “The new negative potential causes an attractive force between the ions > >> [of the plasma], which then form lattices. They are compressed and the > >> distances between them shortened, so that current can flow through them > much > >> faster.” > >> > >> > >> > >> So the (degenerate electron) quantum plasma forms *its own lattice*!? A > >> nano/micro-scale lattice of plasma… now that ought to have some > interesting > >> properties being that the ions are much free-er (is that a word?) that > in > >> condensed matter. If this plasma lattice encompasses the first several > >> layers of atoms in the condensed matter (Ni, Pd, etc), could the > compression > >> of the plasma lattice physically force protons to cross the Coulomb > barrier? > >> > >> > >> > >> Could this be the nuclear active areas that LENR researchers have > >> discussed? A quantum plasma lattice juxtaposed or co-physical with a > >> condensed matter (metal) lattice… Obviously, it would take specific > >> conditions to bring this about, and on a small volume, and probably > short > >> lived with the disruptive randomness of quantums of heat energy being > >> shuffled about inside the metal lattice. This quantum lattice could > >> certainly be the ‘collective oscillations’ that McKubre and others have > >> hypothesized… same phenomenon, different name. Or does the plasma > ‘lattice’ > >> imply additional properties not considered by LENR researchers? > >> > >> The other interesting clue which could be relevant to LENR is this: > >> > >> “Such plasmas …. can be produced artificially in the laboratory by means > >> of laser irradiation.” > >> > >> > >> > >> Remember that some LENR work (SPAWAR?) has looked at laser stimulation, > >> and it seemed to have a positive effect… > >> > >> > >> > >> I think the problem with the lack of good theoretical basis for LENR > comes > >> from the fact that we really are discovering an entirely new field of > >> physics, and there are numerous interactions that can occur… which just > >> serves to confuse things… too many effects to coordinate into a > qualitative > >> model that can then be quantitatively explored and modeled. > >> > >> > >> > >> Truly exciting times! This will probably dwarf the importance of the > >> transition in understanding when going from the Bohr model of the atom > to > >> quantum mechanics nearly 100 years ago. > >> > >> > >> > >> -Mark > >> > >> > >> > >> From: Roarty, Francis X [mailto:[email protected]] > >> Sent: Tuesday, March 27, 2012 10:19 AM > >> To: [email protected] > >> Subject: RE: EXTERNAL: [Vo]:New physical attraction between ions in > >> quantum plasmas > >> > >> > >> > >> Mark, > >> > >> Is this proof of a reduced coulomb barrier? > >> > >> Fran > >> > >> > >> > >> From: MarkI-ZeroPoint [mailto:[email protected]] > >> Sent: Tuesday, March 27, 2012 1:08 PM > >> To: [email protected] > >> Subject: EXTERNAL: [Vo]:New physical attraction between ions in quantum > >> plasmas > >> > >> > >> > >> Hot off the press! > >> > >> Not sure is this is relevant to LENR, but think it could be… > >> > >> When ions get closer: New physical attraction between ions in quantum > >> plasmas > >> > >> Quantum plasmas extend the area of application to nano-scales, where > >> quantum-mechanical effects gain significance. This is the case when, in > >> comparison to normal plasmas, the plasma density is very high and the > >> temperature is low. Then the newly discovered potential occurs, which is > >> caused by collective interaction processes of degenerate electrons with > the > >> quantum plasma. Such plasmas can be found, for example, in cores of > stars > >> with a dwindling nuclear energy supply (white dwarfs), or they can be > >> produced artificially in the laboratory by means of laser irradiation. > The > >> new negative potential causes an attractive force between the ions, > which > >> then form lattices. They are compressed and the distances between them > >> shortened, so that current can flow through them much faster. > >> > >> The findings of the Bochum scientists open up the possibility of > >> ion-crystallization on the magnitude scale of an atom. They have thus > >> established a new direction of research that is capable of linking > various > >> disciplines of physics. Applications include micro-chips for quantum > >> computers, semiconductors, thin metal foils or even metallic > >> nano-structures. > >> > >> More information: P. K. Shukla and B. Eliasson (2012): Novel Attractive > >> Force Between Ions in Quantum Plasmas, Physical Review Letters 108, in > >> press. > >> > >> < p class=MsoNormal>Gee, you mean there are still new things to > discover? > >> Science still has things to learn? I’m being sarcastic here… > >> > >> > >> > >> This is why when anyone, especially a scientist, states that something > >> isn’t possible because it contradicts laws of physics, they are just > >> flat-out wrong. ALL one is justified in ever saying in that situation > is > >> that it’s very unlikely. if they don’t speak in probabilities, then > they > >> are probably wed to their theories as much as any person is to their > >> religion… it’s ok to ‘not know’. > >> > >> > >> > >> -Mark > >> > >> > > > > > >
